Self-supporting, millimeter length 3D constructs consisting of individualized liquefied compartments, were produced using cell encapsulated hydrogel beads as building blocks. A perfusion-based layer-by-layer approach was used that allowed bioencapsulated beads to assemble, pattern, hold and attach to produce non-liquefied 3D constructs with controlled shape, displaying the binding feature of a continuous nanometric multilayer coating. No binders or crosslinking strategies were used. The internal microenvironment of this 3D construct was modified from solid to liquefied state by chelation. MTS and liveâ dead assays showed enhanced L929 cell viability with liquefied 3D constructs, compared to non-liquefied ones. The proposed technique opens ...
The demands of tissue engineering have driven a tremendous amount of research effort in 3D tissue cu...
NMP4-SL-2009-229292Natural-derived polymers are used to coat liquid-core capsules layer by layer to ...
International audienceThe conventional tissue engineering is based on seeding of macroporous scaffol...
Cell encapsulation within hydrogel microspheres shows great promise in the field of tissue engineeri...
In this work, three-dimensional (3D) self-sustaining, spiral-shaped constructs were produced through...
A plethora of bioinspired cell-laden hydrogels are being explored as building blocks that once assem...
A plethora of bioinspired cell-laden hydrogels are being explored as building blocks that once assem...
Cell encapsulation systems must ensure the diffusion of molecules to avoid the formation of necrotic...
This study presents a novel approach for threedimensional (3D) cell culture using a two-component sy...
The development of complex and large 3D vascularized tissue constructs remains the major goal of tis...
Tissue engineering strategies have relied on engineered 3-dimensional (3D) scaffolds to provide arch...
In this work, the authors propose to explore the binding potential of nonostructured multilayers pro...
A promising approach for engineering artificial stem cell niches is provided by high-throughput micr...
A hybrid 3D bioprinting approach using porous microscaffolds and extrusion-based printing method is ...
This chapter focuses on the use of layer-by-layer (LbL)-based strategies to conceive three-dimension...
The demands of tissue engineering have driven a tremendous amount of research effort in 3D tissue cu...
NMP4-SL-2009-229292Natural-derived polymers are used to coat liquid-core capsules layer by layer to ...
International audienceThe conventional tissue engineering is based on seeding of macroporous scaffol...
Cell encapsulation within hydrogel microspheres shows great promise in the field of tissue engineeri...
In this work, three-dimensional (3D) self-sustaining, spiral-shaped constructs were produced through...
A plethora of bioinspired cell-laden hydrogels are being explored as building blocks that once assem...
A plethora of bioinspired cell-laden hydrogels are being explored as building blocks that once assem...
Cell encapsulation systems must ensure the diffusion of molecules to avoid the formation of necrotic...
This study presents a novel approach for threedimensional (3D) cell culture using a two-component sy...
The development of complex and large 3D vascularized tissue constructs remains the major goal of tis...
Tissue engineering strategies have relied on engineered 3-dimensional (3D) scaffolds to provide arch...
In this work, the authors propose to explore the binding potential of nonostructured multilayers pro...
A promising approach for engineering artificial stem cell niches is provided by high-throughput micr...
A hybrid 3D bioprinting approach using porous microscaffolds and extrusion-based printing method is ...
This chapter focuses on the use of layer-by-layer (LbL)-based strategies to conceive three-dimension...
The demands of tissue engineering have driven a tremendous amount of research effort in 3D tissue cu...
NMP4-SL-2009-229292Natural-derived polymers are used to coat liquid-core capsules layer by layer to ...
International audienceThe conventional tissue engineering is based on seeding of macroporous scaffol...